What is Space-Time Made of ? / / David Izabel.

In the first part of this book, the author synthesizes the main results and formulas of physics–Albert Einstein’s, with general relativity, gravitational waves involving elastic deformable space-time, quantum field theory, Heisenberg’s principle, and Casimir’s force implying that a vacuum is not not...

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Bibliographic Details
Superior document:Title is part of eBook package: De Gruyter DG Plus PP Package 2021 Part 2
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Place / Publishing House:Les Ulis : : EDP Sciences, , [2021]
©2021
Year of Publication:2021
Language:English
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Physical Description:1 online resource (366 p.)
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Table of Contents:
  • Frontmatter
  • Preamble
  • Contents
  • Symbology
  • Introduction
  • Chapter 1 Where is Physics Today? – Synthetic Overview of the State of the Art of Physics Today
  • Chapter 2 First Ask the Right Question
  • Chapter 3 A Strange Analogy between S. Timoshenko’s Beam Theory and General Relativity
  • Chapter 4 The Stress Energy Tensor in Theory of General Relativity and the Stress Tensor in Elasticity Theory are Similar
  • Chapter 5 Relationship between the Metric Tensor and the Strain Tensor in Low Gravitational Field
  • Chapter 6 Relationship between the Stress Tensor and the Strain Tensor in Elasticity (K) and between the Curvature and the Stress Energy Tensor (κ) in General Relativity in Weak Gravitational Fields
  • Chapter 7 Can Space-be Considered as an Elastic Medium? New Ether?
  • Chapter 8 And if We Reconstructed the Formula of Einstein’s Gravitational Field by No Longer Considering the Temporal Components of the Tensors, but the Spatial Components
  • Chapter 9 Re-interpretation of the Results of the Theoretical Calculation of General Relativity on Gravitational Waves in Weak Field from the Windows of Elasticity Theory
  • Chapter 10 Determination of Poisson’s Ratio of the Elastic Space Material
  • Chapter 11 Dynamic Study of the elastic Space Strains in an Arm of an Interferometer
  • Chapter 12 Dynamic Study of Simultaneous Elastic Space Strains in the 2 Arms of an Interferometer
  • Chapter 13 Study of an Elastic Space Cylinder Twisted by the Coalescence of Two Black Holes
  • Chapter 14 New Mechanical Expression of Einstein’s Constant κ
  • Chapter 15 Vacuum Data
  • Chapter 16 Calibrating the New Mechanical Expression of κ with the Vacuum Data
  • Chapter 17 Let’s Go Back to the Time Components Based on the New Results
  • Chapter 18 Analogy of Mohr’s Circle with Graviton Spin
  • Chapter 19 What if We Gave Up the Constant Character of G?
  • Chapter 20 How to Test the New Theory?
  • Chapter 21 Other Points in Link with the Strength of Material
  • Chapter 22 Conclusions
  • Appendix A Chronological Order of Progress of the Author’s Reflection and Related Discoveries
  • Appendix B Measurements of Space-Time Material Deformations (Strains and Angles)
  • Appendix C History of Physics and Related Formulas
  • Appendix D Calculating the Scalar Curvature R of a Sphere
  • Appendix E Application of Einstein’s Equation in Cosmology – Demonstration of Friedmann–Lemaitre Equations
  • Appendix F Can-We Understand a Black Hole from the Strength of the Materials?
  • Appendix G Proof of the Relation Between Speed c and the Shear Modulus u of the Elastic Medium in the Case of Gravitational Wave
  • Appendix H Proof of Curvature in Beam Theory
  • Appendix I Proof of Quantum Value of Young’s Modulus of Space Space-Time Obtained in Tables 16.1 and 16.2
  • Appendix J Young’s Modulus of the Space Time from the Energy Density of the Gravitational Wave
  • References from the Author and from the Article Published at PRAMANA on August 13, 2020
  • Terms and Definitions
  • Definition of the Main General Relativity Terms (Source e-Lecture of General Relativity Initiation of Richard Taillet Teacher-Researcher at Savoie Mont Blanc University)
  • About the Author
  • Summary